Private 5G Licensing in the UAE: What the TDRA Private IMT Framework Means for Industrial Operators in 2026
Two authorisation routes. Roughly 1.65 GHz of candidate spectrum on the table. One decision that determines whether your private network is an operator service you rent or an asset you own — and it is being framed now, not in 2027.
For four years, an industrial operator in the UAE wanting a private 5G network had one practical question to answer: which mobile operator will build it for me, and on what terms. The regulatory route was a licensed-operator route, and that shaped everything downstream — who owned the core, who held the SIM estate, who controlled the data, and who carried the network on their balance sheet.
That question is being reopened. In July 2026 the UAE Telecommunications and Digital Government Regulatory Authority ran a public consultation on a proposed enablement framework for Private IMT Networks — dedicated private cellular networks, authorised on their own terms rather than only as a service delivered under a public mobile licence.[1] The consultation opened on 23 July 2026 and closed on 31 July 2026. Final parameters, including power limits and coordination rules, remain subject to change on the strength of stakeholder feedback.[1]
This piece is written for the executive who has to make a capital decision before the final rules land, because the two things that take longest — the internal business case and equipment lead time — are the two things you can start now.
The framework is not a technology decision, it is an ownership decision. Two authorisation routes are proposed: deployment by a licensed mobile operator as a service to the enterprise, or direct deployment by the enterprise itself subject to TDRA approval.[1] Those two paths produce different balance sheets, different data-sovereignty positions and different exit costs from the same radio technology. Choose the commercial model first. The equipment follows.
The Two Authorisation Routes, Side by Side
The consultation proposes both routes rather than replacing one with the other, and the sectors it names are precisely the UAE industrial base: manufacturing, energy, logistics, transport, mining, ports and smart infrastructure — the environments that need what the framework calls deterministic, high-reliability wireless connectivity.[1]
| Dimension | Operator-delivered private network | Enterprise-deployed private network |
|---|---|---|
| Spectrum access | Held by the operator under its existing licence | Assigned to the enterprise, subject to TDRA approval |
| Capital treatment | Largely OpEx, contracted as a service | CapEx on the RAN and core, with OpEx for operations |
| Data residency and control | Depends on where the operator terminates the core | On-premises core keeps traffic inside the site boundary |
| Speed to first coverage | Fast where the operator already has assets nearby | Governed by approval plus equipment lead time |
| Customisation of SLA and slicing | Within the operator product envelope | Set by the enterprise against its own process risk |
| Who carries obsolescence | The operator, inside the service fee | The enterprise — which makes lifecycle sourcing strategic |
Five Questions That Decide Your Route
- What breaks if the network stops for ten minutes? If the answer is a production line, a crane sequence, a pipeline telemetry loop or a mission-critical voice channel, you are buying determinism, not bandwidth — and the SLA has to be written against your process, not against a generic uptime figure.
- Where must the traffic terminate? A government or energy operator with data-residency obligations is usually pushed toward an on-premises core regardless of the commercial route. Establish that constraint before you compare prices, because it removes options rather than repricing them.
- How large and how RF-hostile is the site? Metal, liquid, reflective surfaces and long distances behave very differently at 4 GHz than at 25 GHz. The band choice in Figure 1 is a site-survey output, not a preference.
- Who will operate it at 03:00? A private network is a telecom operation with a shift pattern. Either you build a NOC capability or you contract one, and that choice belongs in the business case rather than in a later surprise.
- What is your device estate? Modules, routers, cameras, tablets and handhelds have to support the band you select. Device readiness, not the radio, is the most common cause of a private-network schedule slipping.
Technical View: What the Candidate Bands Support
| Characteristic | 3.8–4.2 GHz | 24.25–25.5 GHz |
|---|---|---|
| Candidate bandwidth | ~400 MHz [1] | ~1.25 GHz [1] |
| Propagation character | Good area coverage, tolerant of obstruction | Short range, highly directional, sensitive to blockage |
| Typical industrial fit | Ports, yards, refineries, campuses, open plant | Dense indoor cells, fixed wireless links, high-capacity hotspots |
| Cell count for a given area | Lower | Materially higher |
| Where the cost lands | Radio units and backhaul | Civils, power and cabling for cell density |
Band characteristics are general RF properties. Site-specific performance is established by survey and, where required, by a proof of concept.
Procurement View: The Cost Lines to Budget Now
A private-network business case fails more often on omitted lines than on mispriced ones. The table below is the structure we use when we build a three-year model with a client. We do not publish unit prices, because a credible number is site-specific and belongs in a written offer against your survey — but every line below will appear in yours.
| Cost line | Treatment | Most common omission |
|---|---|---|
| Radio access network | CapEx | Spares holding for the SLA you promised |
| Core network, on-premises or hosted | CapEx or OpEx by route | Redundancy for the core, not just the radio |
| Civils, power, mounting, cabling | CapEx | Hazardous-area classification on energy sites |
| Devices, modules and SIM estate | CapEx | Band support across the existing fleet |
| Spectrum authorisation and compliance | OpEx | Coordination obligations with neighbouring users |
| Operations, monitoring and field response | OpEx | 24×7 cover, not business-hours cover |
| Software, licences and lifecycle | OpEx | Release upgrades across a three-year horizon |
| Security and network monitoring | OpEx | Treating the private network as inside the trusted perimeter |
This Is Not a UAE Experiment
The private-network question has already been answered thousands of times elsewhere. Industry tracking published in August 2026 covers some 9,300 private 5G engagements across 130 countries.[2] The UAE framework is not opening an untested category — it is giving a tested one a domestic route. That matters for the business case, because the risk you are underwriting is deployment execution, not whether the technology works.
How HCT Group Supports Private Network Operators in the UAE
HCT Group is a Dubai-headquartered telecom and AI solutions enabler operating across the Middle East, Africa and Asia. We are deliberately operator-independent: we design, build and run private networks for the enterprise that owns them, which means the route comparison above is a genuine comparison when we run it with you rather than a sales funnel with one exit.
CEO Action Checklist — Next 90 Days
- Name the process that justifies the network. One process, with a cost of downtime attached to it. A private network justified by coverage alone never clears a capital committee.
- Settle the data-residency constraint in writing with your own compliance function, before you evaluate any route.
- Commission an RF survey of the priority site. It is the input that turns Figure 1 into a band decision and a cell count.
- Audit the device estate for band support. This is where schedules are quietly lost.
- Build the three-year model with every line in the procurement table — particularly 24×7 operations and spares.
- Decide operate-or-contract for the NOC and price both.
- Run a bounded proof of concept on the single worst RF corner of the site, not the easiest one.
Planning a private network before the final rules land?
We will run the route comparison, the survey scope and the three-year model against your site — operator-independent, and with the cost lines named rather than buried.
Talk to our private networks team Explore our solutionsRelated reading on hctgroup.ae: HCT Insights · Private 5G and managed network solutions · Industries we serve · Contact our team
Sources
- GMA Labs, UAE Private IMT Networks: TDRA Opens Consultation — consultation 23 to 31 July 2026; candidate bands 3.8–4.2 GHz and 24.25–25.5 GHz; two proposed authorisation routes; named target sectors; draft parameters subject to change.
- Research and Markets via GlobeNewswire, Private 5G Network Deployment Tracker and Forecasts 2026–2030, August 2026 — 9,300 engagements across 130 countries.
- TDRA, Telecommunications and Digital Government Regulatory Authority — regulations, rulings and licensing.
- HCT Group service and capability pages, operating metrics as published.
Regulatory note: the Private IMT framework described here was at draft consultation stage as at the date of publication. Final licence conditions, power limits and coordination rules are TDRA to determine and may differ. Nothing in this article is regulatory or legal advice; confirm your own position with TDRA or qualified counsel before committing capital.
Nova — Chief Operating Officer, HCT Group and NetZero.tel. HCT Group is a Dubai-based telecom and AI solutions enabler delivering private 5G and LTE, RAN and Open RAN, core and transport networks, mission-critical communications, managed services and NOC, and AI solutions on the AI Hive platform across the UAE, GCC, MENA, Africa and Asia. Ahead of Time.